Evaluation of Aluminum Oxide Thin Film in Magnetic Tunneling Junction Utilizing Scanning Probe Microscopy
スポンサーリンク
概要
- 論文の詳細を見る
We attempted to evaluate the role of tunneling oxide in a magnetic tunneling junction (MTJ) cell using scanning probe microscopy (SPM). In particular, we focused on the variation in the thickness uniformity of aluminum oxide thin film, thereby correlating the topology with its current image. The local $I$-$V$ measurement revealed that a preferred current conduction through thinner aluminum oxide exists. The cross-sectional image confirmed that the variation in the thickness of aluminum oxide creates weak points for current conduction. Finally, we could obtain a tenfold the MR value in the MTJ cell by improving the thickness uniformity of the aluminum oxide thin film.
- 2004-04-15
著者
-
Lee Kye
School Of Information & Communications Engineering Sungkyunkwan University
-
Kim T.
Md Laboratory Samsung Advanced Institute Of Technology
-
Ham Ho
School of Information & Communications Engineering, SungKyunKwan University, 300 Chunchun-dong, Jangan-gu, Suwon, Kyunggi-do 440-746, Korea
-
Chung Ilsub
School of Info rolation and Communications Engineering, Sun gKyunKwan University
-
Park S.
MD Laboratory, Samsung Advanced Institute of Technology, P.O. Box 111, Korea
関連論文
- FinFET NAND Flash with Nitride/Si Nanocrystal/Nitride Hybrid Trap Layer
- Application of Scanning Probe Microscope for Novel Characterization of Ferroelectric Capacitor
- Ferroelectric Properties of Very Thin Pb(Zr_Ti_)O_3 Film Determined by Kelvin Force Microscope
- Evaluation of Aluminum Oxide Thin Film in Magnetic Tunneling Junction Utilizing Scanning Probe Microscopy
- Study On Charge Trap Layers In Charge Trap Metal–Oxide–Semiconductor Field Effect Transistor
- Fin-Type Field-Effect Transistor NAND Flash with Nitride/Silicon Nanocrystal/Nitride Hybrid Trap Layer
- Electrical Characterization of Sub-micron Magnetic Tunneling Junction Cells Using Scanning Probe Microscopy
- Study on Polarization Properties of Randomly Oriented Bi3.35La0.85Ti3O12 Ferroelectric Thin Film Utilizing Three-Dimensional Piezoresponse Image